Example #1
0
        internal static DiscreteTimeMarkovChain Create()
        {
            // Transformed LabeledTransitionMarkovChain.Example4
            //   0⟶0.6⟼1⟼0.9⟲
            //                0.01⇢3
            //                0.09⇢4
            //       0.3⟼2⟼0.9⇢1
            //                0.01⇢3
            //                0.09⇢4
            //       0.1⟼4⟼3⟲

            var markovChain = new DiscreteTimeMarkovChain(ModelCapacityByMemorySize.Tiny);

            markovChain.StateFormulaLabels         = new string[] { Label1Formula.Label, Label2Formula.Label };
            markovChain.StateRewardRetrieverLabels = new string[] { };
            markovChain.StartWithInitialDistribution();
            markovChain.AddInitialTransition(0, 1.0);
            markovChain.FinishInitialDistribution();

            markovChain.SetStateLabeling(0, new StateFormulaSet(new[] { false, false }));             // state 1(-) of LabeledTransitionMarkovChainExamples.Example4
            markovChain.StartWithNewDistribution(0);
            markovChain.AddTransition(1, 0.6);
            markovChain.AddTransition(2, 0.3);
            markovChain.AddTransition(4, 0.1);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(1, new StateFormulaSet(new[] { false, false }));             // state 2(-) of LabeledTransitionMarkovChainExamples.Example4
            markovChain.StartWithNewDistribution(1);
            markovChain.AddTransition(1, 0.9);
            markovChain.AddTransition(3, 0.01);
            markovChain.AddTransition(4, 0.09);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(2, new StateFormulaSet(new[] { true, false }));             // state 2(lab1) of LabeledTransitionMarkovChainExamples.Example4
            markovChain.StartWithNewDistribution(2);
            markovChain.AddTransition(1, 0.9);
            markovChain.AddTransition(3, 0.01);
            markovChain.AddTransition(4, 0.09);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(3, new StateFormulaSet(new[] { false, false }));             // state 3(-) of LabeledTransitionMarkovChainExamples.Example4
            markovChain.StartWithNewDistribution(3);
            markovChain.AddTransition(3, 1.0);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(4, new StateFormulaSet(new[] { false, true }));             // state 3(lab2) of LabeledTransitionMarkovChainExamples.Example4
            markovChain.StartWithNewDistribution(4);
            markovChain.AddTransition(3, 1.0);
            markovChain.FinishDistribution();

            //markovChain.ProbabilityMatrix.OptimizeAndSeal();
            return(markovChain);
        }
Example #2
0
        internal static DiscreteTimeMarkovChain Create()
        {
            // A DTMC for \phi Until \psi (or in this case Label1 U Label2)
            //   0⟶0.1⟼1⟲
            //       0.2⟼2⟼3⟲
            //       0.7⟼4↗
            //  \psi in 3. \phi in 0,2
            var markovChain = new DiscreteTimeMarkovChain(ModelCapacityByMemorySize.Tiny);

            markovChain.StateFormulaLabels         = new string[] { Label1Formula.Label, Label2Formula.Label };
            markovChain.StateRewardRetrieverLabels = new string[] { };
            markovChain.StartWithInitialDistribution();
            markovChain.AddInitialTransition(0, 1.0);
            markovChain.FinishInitialDistribution();

            markovChain.SetStateLabeling(0, new StateFormulaSet(new[] { true, false }));
            markovChain.StartWithNewDistribution(0);
            markovChain.AddTransition(1, 0.1);
            markovChain.AddTransition(2, 0.2);
            markovChain.AddTransition(4, 0.7);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(1, new StateFormulaSet(new[] { false, false }));
            markovChain.StartWithNewDistribution(1);
            markovChain.AddTransition(1, 1.0);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(2, new StateFormulaSet(new[] { true, false }));
            markovChain.StartWithNewDistribution(2);
            markovChain.AddTransition(3, 1.0);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(3, new StateFormulaSet(new[] { false, true }));
            markovChain.StartWithNewDistribution(3);
            markovChain.AddTransition(3, 1.0);
            markovChain.FinishDistribution();

            markovChain.SetStateLabeling(4, new StateFormulaSet(new[] { false, false }));
            markovChain.StartWithNewDistribution(4);
            markovChain.AddTransition(3, 1.0);
            markovChain.FinishDistribution();

            //markovChain.ProbabilityMatrix.OptimizeAndSeal();
            return(markovChain);
        }
Example #3
0
        internal static DiscreteTimeMarkovChain Create()
        {
            // Just a simple DTMC
            //   0⟶1⟲
            var markovChain = new DiscreteTimeMarkovChain(ModelCapacityByMemorySize.Tiny);

            markovChain.StateFormulaLabels         = new string[] { Label1Formula.Label, Label2Formula.Label };
            markovChain.StateRewardRetrieverLabels = new string[] { };
            markovChain.StartWithInitialDistribution();
            markovChain.AddInitialTransition(0, 1.0);
            markovChain.FinishInitialDistribution();
            markovChain.SetStateLabeling(1, new StateFormulaSet(new[] { true, false }));
            markovChain.StartWithNewDistribution(1);
            markovChain.AddTransition(1, 1.0);
            markovChain.FinishDistribution();
            markovChain.SetStateLabeling(0, new StateFormulaSet(new[] { false, true }));
            markovChain.StartWithNewDistribution(0);
            markovChain.AddTransition(1, 1.0);
            markovChain.FinishDistribution();
            //markovChain.ProbabilityMatrix.OptimizeAndSeal();
            return(markovChain);
        }